|
HS Code |
183785 |
| Cas Number | 123-75-1 |
| Molecular Formula | C4H9N |
| Molar Mass | 71.12 g/mol |
| Appearance | Colorless liquid |
| Odor | Amine-like |
| Density | 0.866 g/cm3 |
| Melting Point | -63°C |
| Boiling Point | 87°C |
| Solubility In Water | Miscible |
| Flash Point | 10°C |
| Refractive Index | 1.442 |
| Vapor Pressure | 62 mmHg (20°C) |
As an accredited Pyrrolidine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Pyrrolidine is packaged in a 500 mL amber glass bottle, tightly sealed with a screw cap, and labeled with safety information. |
| Shipping | Pyrrolidine should be shipped in tightly sealed containers, stored upright in a cool, well-ventilated area away from ignition sources. It is classified as a flammable and corrosive substance; appropriate hazard labels and documentation are required. Transport must comply with national and international regulations for hazardous chemicals. Handle with compatible protective materials. |
| Storage | Pyrrolidine should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition. Keep it away from incompatible materials such as acids, oxidizers, and moisture. Store under inert atmosphere if possible, as it is sensitive to air and may degrade. Ensure proper labeling and secure storage to prevent leaks or spills. |
| Purity 99%: Pyrrolidine with purity 99% is used in pharmaceutical synthesis, where it ensures high yield and minimizes impurity profiles. Molecular Weight 71.12 g/mol: Pyrrolidine with molecular weight 71.12 g/mol is used in alkaloid production, where exact molecular targeting enhances intermediate consistency. Melting Point −63 °C: Pyrrolidine with a melting point of −63 °C is used in low-temperature organic reactions, where it maintains reactivity under cryogenic conditions. Water Content ≤0.2%: Pyrrolidine with water content ≤0.2% is used in peptide coupling processes, where low moisture preserves reaction efficiency. Stability Temperature Up to 25 °C: Pyrrolidine with stability temperature up to 25 °C is used during storage and transport, where chemical integrity is retained over time. Refractive Index 1.458: Pyrrolidine with refractive index 1.458 is used in optical polymer formulations, where precise optical clarity is achieved. Viscosity 0.72 cP at 25 °C: Pyrrolidine with viscosity 0.72 cP at 25 °C is used in resin modification, where low viscosity enhances mixing and dispersion. Density 0.866 g/cm³: Pyrrolidine with density 0.866 g/cm³ is used in fertilizers’ formulation, where precise dosing optimizes nutrient delivery. Boiling Point 87 °C: Pyrrolidine with boiling point 87 °C is used in fine chemical manufacturing, where controlled evaporation reduces solvent losses. Residue on Evaporation ≤0.01%: Pyrrolidine with residue on evaporation ≤0.01% is used in microelectronic cleaning, where minimal residue preserves circuit integrity. |
Competitive Pyrrolidine prices that fit your budget—flexible terms and customized quotes for every order.
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Pyrrolidine stands out among cyclic amines. As a direct manufacturer with decades of production experience, we see this product not just as a reagent but as a building block—one that shapes industries from pharmaceuticals to specialty polymers. What distinguishes pyrrolidine isn’t only its molecular ring structure but the consistency and purity levels we maintain batch after batch. Models and specifications matter less if the core product lacks reliability. Every kilogram of pyrrolidine leaving our facility represents a blend of chemical know-how and honest craftsmanship.
The molecular formula, C4H9N, looks simple at first glance. In practice, this five-membered ring displays chemical properties that have proven indispensable in real-world synthesis. It carries a boiling point near 87°C and presents itself as a colorless, highly volatile liquid with a distinctive amine odor. Its miscibility with most organic solvents makes it a favorite among formulators, especially when flexibility is needed at the reaction bench.
We manufacture pyrrolidine to meet the demands of researchers and industrial chemists who know that even minor deviations in impurity profiles can throw off reaction sequences. Regular feedback from customer labs pushes our analytical controls to higher standards. Whether a client needs 99% or >99.5% purity, we tune our processes to deliver pyrrolidine that behaves as expected—batch after batch.
Lessons learned from decades of handling cyclic amines have shown that not all pyrrolidine is the same. Isolate it using crude, rapid distillation and the results feel unpredictable. Invest in continually refurbished stills, routine in-process sampling, and tight equipment cleaning intervals, and the product’s stability follows. We’ve replaced legacy glassware with corrosion-resistant alloys in critical steps, cutting down contamination and safeguarding the product’s clean profile.
Maintenance and operator training matter as much as the underlying synthesis reaction. Staff recognize when the odor profile changes or if condensation patterns look off. Hands-on experience and real-time data shape production far more than textbook procedures ever could. Inspectors from industrial clients routinely comment on the physical clarity and consistent amine strength. That’s the result of hundreds of optimization cycles, not automation alone.
Pharmaceutical synthesis depends on secondary amines like pyrrolidine. Its role in forming enamine intermediates and as a base in alkylation reactions means the product has to work, every time. Any hint of residual moisture or side-product throws a wrench in the process, especially in scale-up where batch repeatability determines overall yield. Our team learned years ago that investing in better drying and inert gas blanketing pays off in higher customer satisfaction and fewer back-and-forth troubleshooting calls.
Catalyst manufacturers also trust pyrrolidine as a ligand precursor or as a reactive template for shaping new metal-organic compounds. Slight changes in amine profile alter the crystal field properties, so they appreciate rigorous purity reporting and the absence of trace metals. Electronic material producers often specify pyrrolidine because their process windows leave little safety margin: colorless, particle-free material makes the difference between a viable device and a rejected wafer.
In rubber, cosmetics, agrochemicals, and water treatment, uses vary, but the unifying theme is predictability and transparency. Customers use our pyrrolidine without pausing to second-guess component stability. That’s born from long-term consistency and careful documentation.
Many see pyrrolidine as just “another amine,” but its five-membered ring structure changes everything. Compare it with piperidine (six-membered) or with open-chain ethylamines. Pyrrolidine’s ring tension and steric properties impart unique nucleophilicity, often producing cleaner, higher-yield reactions where open-chain amines give unpredictable by-products. In lab trials run for custom catalysts, we’ve seen enamine formation proceed with greater selectivity in pyrrolidine-rich conditions, cutting down on purification steps downstream.
Morpholine, another cyclic amine, brings in an oxygen atom that shifts electron density. This makes morpholine milder, useful for buffer applications, but it can’t match pyrrolidine’s robustness as a base or nucleophile. Our team fields regular questions from new chemists on whether piperidine or morpholine could serve as “drop-in” replacements. We show them reaction traces side-by-side: yields, color changes, stability over time. Pyrrolidine walks a narrow line between aggression and stability, which is why specialists request it by name, not by general amine type.
Buyers come to us not just for product spec sheets but for insight into process capability. Typical models we offer include minimum 99% and 99.5% assay variants. Even these headlines understate the detail. Volatile base content, residual water (controlled below 0.1%), and low-light absorbance across the UV-visible range feature in our internal checks. Each lot’s certificate comes backed by validated ISO-compliant lab results. Some clients demand custom low-odor profiles, which our dedicated distillation lines can support.
In the early days, requests spanned industrial-grade—meant for rubber accelerators or non-critical applications—up to pharmaceutical-grade. Today, growth in regulated industries has driven up demand for traceability, documentation, and environmental compliance. We monitor residual solvent levels (including acetone and DMF), ensuring that downstream products stay clean and regulatory filings hold up under review.
Starting material selection shapes the experience with any chemical. For pyrrolidine, we purchase only from vetted upstream suppliers, qualifying every lot with full chromatographic paneling. That internal discipline began before regulatory checklists got popular. We see fewer customer disputes, higher confidence in joint ventures, and easier root-cause analysis if problems arise. Even packaging receives inspection—to guard against cross-contamination, vapor emission, or degradation during prolonged storage.
Our drums and intermediate bulk containers (IBCs) see nitrogen purges directly after filling. Our experience with older steel containers taught us a lot about hydroscopic pickup and vapor loss in transit: even a few parts per million of moisture can alter a batch’s amine strength. These small touches add up, especially for clients dosing pyrrolidine directly into sensitive reactors. Trace impurities from container walls or fill lines have led to plenty of lessons over the years. We track such deviations down to root cause, be they in the filling sequence, transfer hoses, employee handling, or minor valve-seal degradation.
Producing and shipping pyrrolidine brings responsibility. This amine forms vapors with acute odor and health risks at relatively low concentrations. That’s more than just a matter of workplace regulations. Operators routinely swap out PPE, rotate roles, and undergo regular health monitoring. Ventilation, capture systems, and regular spill drills speak to our focus on both staff safety and environmental stewardship.
Waste minimization shapes daily practice as much as any regulatory fine. Distillation residues get managed as hazardous waste, with in-plant recycling loops recovering nearly 40% of what formerly left the building as by-product. We work closely with hazardous waste handlers to prevent even minor leaks from entering water or soil. This willingness to face the unglamorous side of chemical production—the cost, paperwork, and effort—keeps our permits current and our neighbors at ease. Customers have become noticeably more engaged in auditing. Detailed answers, up-to-date monitoring logs, and on-site walks often replace abstract compliance checklists. These changes come less from external pressure and more from internal pride in delivering a product with a clean legacy.
Just-in-time manufacturing shaped our industry—but pyrrolidine’s volatility and toxicity set extra hurdles. Short lead times really mean something when talking about shelf-stable chemicals. Delivering it in the right container, with the appropriate temperature control and real-time shipment tracking, keeps both product and people safe. Our logistics partners drill their drivers on PPE, spill protocol, and customs paperwork because every slip leaves a mark on customer trust.
We organize inventory not only around big orders but also for R&D clients who may need just a few kilograms urgently. During recent global supply chain disruptions, these smaller requests rose sharply—our longstanding material partnerships kept the line steady. Even in tight years when upstream supply threatens to choke off output, we prioritize confirmed partner companies and long-term customers, ensuring their research and production lines don’t stall. No one celebrates a truckload stuck in customs because it failed a secondary inspection on labeling or documentation; our prep work up front keeps these headaches rare.
Breakthroughs in medicinal chemistry, advanced materials, and green solvents all draw on reliable access to high-purity pyrrolidine. Many blockbuster drugs rely on enamine intermediates that only this amine delivers at scale with clean reaction profiles. We regularly collaborate in material sharing with startups and established research labs. They report intermediate yield jumps and fewer purification headaches after switching to our material; sometimes, it’s the difference between a theoretical proof of concept and a viable production process.
In energy storage research—particularly in electrolyte and membrane design—customers test pyrrolidine-derived species for thermal or oxidative stability. Their feedback loop closes faster with us because they receive technical support from chemists, not hotline operators. When a batch isn’t performing to expectations, we pull sequence data, recheck storage conditions, and dispatch new samples—directly. This approach builds more than business; it fosters joint problem-solving and long-term relationships.
Raw material pricing and fluctuating demand have made steady pyrrolidine supply challenging at times. During periods of price spikes or resource shortages, alternative amines enter conversation: piperidine, morpholine, or N-methylpyrrolidine. Fact is, none mirror pyrrolidine’s reactivity without trade-offs—whether lower selectivity, different toxicity profiles, or increased downstream purification burdens. Our technical sales staff field dozens of requests for “drop-in” alternates each year. Most users return to pure pyrrolidine after initial trials with substitutes, citing reduced yields or new impurities. Combatting this, we maintain buffer stocks, transparent forward pricing, and prioritize communication on supply risks long before they become production threats.
Sustainable feedstocks and greener synthesis methods gather momentum every year. Our R&D team works with biomaterial suppliers and academic partners in pursuit of next-generation input streams. Bio-based pyrrolidine routes are under close review, with trial runs already underway. Such innovation won’t replace legacy production overnight, but the path there passes through hard-won expertise in standard manufacturing. Customers ask about carbon footprint, VOC reduction, and renewable content. While the chemistry presents obstacles—especially around scale, purity, and cost—movement in this direction is real. We share relevant life cycle data with major clients and open our books to regulatory audits, building trust not only in product quality but also in supply chain responsibility.
Checklists, certifications, and automation have value, but they never replace human eyes and skilled hands guiding production. Operators who’ve spent years in the plant quickly spot a slow condenser or odd tank vibration. Maintenance routinely fine-tunes pumps, heaters, and scrubbers based on subtle performance feedback—their notes often prevent quality issues days before an analysis lab would catch an outlier.
Over time, every major incident or near-miss has reinforced the importance of shared knowledge. During a past vapor leak event in the early 2010s, rapid communication between shift leads, engineers, and dispatch contained the risk with minimal downtime. We revamped training, fire safety integration, and emergency drills based on a frank review of what went right and what needed strengthening. This culture of learning lets us continually improve, shaving down scrap rates, reducing product variance, and earning strong performance history with clients during audits and compliance reviews.
Open communication with end users, suppliers, and even regulators improves the entire industry ecosystem. We regularly join technical consortia, draft best-practice guidelines, and offer plant tours to partners and clients. Our transparency leads to smarter partnerships, higher-quality feedback, and greater resilience when market conditions shift. Trade shows, technical seminars, and customer site visits often move conversations from transactional to collaborative. On many occasions, direct plant visits have clarified user challenges no conference call ever could.
We take pride in not only delivering pyrrolidine as a chemical product but as a foundation for entire production lines and research strategies. Customer suggestions—be it for special blends, packaging, or new application fields—go straight to development teams. Our future lies as much in adapting the product as in perfecting current methods.
A cyclic amine like pyrrolidine weaves together business needs and technical demands. Maintaining quality, safety, and supply reliability makes a day-to-day difference for users across the globe. The trust placed in us by pharmaceutical innovators, materials scientists, and specialty chemists reflects not just commodity delivery but a shared commitment to getting chemistry right, all the way from plant gate to process floor.
We look forward to what comes next: scaling production in step with rising demand, partnering on environmental improvements, and backing every order with the reputation built by years of actual manufacturing. Our approach isn’t driven by buzzwords or standard “solutions.” Instead, it comes straight from experience, careful attention to detail, and a deep respect for our partners who depend on quality pyrrolidine—no matter the market season.